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Science Learning for All: Celebrating Cultural Diversity covers three must-know” areas of multicultural science education: inclusive curriculum design, multicultural teaching strategies, and language diversity in science teaching and learning. With the help of this best-of collection from The Science Teacher, NSTA’s journal for high school teachers, you’ll find fresh ideas on how to meet the science learning needs of all students, with explicit connections to the National Science Education Standards.
Science Learning for All: Celebrating Cultural Diversity covers three must-know” areas of multicultural science education: inclusive curriculum design, multicultural teaching strategies, and language diversity in science teaching and learning. With the help of this best-of collection from The Science Teacher, NSTA’s journal for high school teachers, you’ll find fresh ideas on how to meet the science learning needs of all students, with explicit connections to the National Science Education Standards.
Spark your students’ interest in electricity. Taking Charge is designed to help teachers bring the intimidating subject of electricity to students in the middle grades. These teacher-tested, hands-on activities use readily available materials and make students’ first exposure to electricity a fun one. Students explore static electricity in the first module before seeing that static electricity can move as current electricity, which is investigated in the second module.
Spark your students’ interest in electricity. Taking Charge is designed to help teachers bring the intimidating subject of electricity to students in the middle grades. These teacher-tested, hands-on activities use readily available materials and make students’ first exposure to electricity a fun one. Students explore static electricity in the first module before seeing that static electricity can move as current electricity, which is investigated in the second module.
For extra credit or just for the fun of it—why not try a brainteaser? This collection brings together the first 100 brainteasers from Quantum magazine, published by the National Science Teachers Association in collaboration with the Russian magazine Kvant. Through its pages, you’ll find number rebuses, geometry ticklers, logic puzzles, and quirky questions with a physics twist. Students and teachers alike will enjoy these fun quandaries.
For extra credit or just for the fun of it—why not try a brainteaser? This collection brings together the first 100 brainteasers from Quantum magazine, published by the National Science Teachers Association in collaboration with the Russian magazine Kvant. Through its pages, you’ll find number rebuses, geometry ticklers, logic puzzles, and quirky questions with a physics twist. Students and teachers alike will enjoy these fun quandaries.
In this collection of ten articles reprinted from the Journal of College Science Teaching, college and university science professors show how they have used investigative learning—or inquiry-based instruction—to introduce students to the process of science. These first-person accounts demonstrate how students, including non-science majors, can learn to do science as it is done in the real world—through hypothesis building, observation, and experimental design.
In this collection of ten articles reprinted from the Journal of College Science Teaching, college and university science professors show how they have used investigative learning—or inquiry-based instruction—to introduce students to the process of science. These first-person accounts demonstrate how students, including non-science majors, can learn to do science as it is done in the real world—through hypothesis building, observation, and experimental design.
No single educator can help children learn all they need to become scientifically literate. Resources are all around us—not only in traditional science classrooms and laboratories, but also in gardens, nature centers, parks, youth programs, museums, and on television and radio. Community Connections for Science Education, Volume I: Building Successful Partnerships offers advice on how to select community resource partners, set joint learning goals, improve pre- and post-field trip activities, instruct students in field trip safety and etiquette, and much more.
No single educator can help children learn all they need to become scientifically literate. Resources are all around us—not only in traditional science classrooms and laboratories, but also in gardens, nature centers, parks, youth programs, museums, and on television and radio. Community Connections for Science Education, Volume I: Building Successful Partnerships offers advice on how to select community resource partners, set joint learning goals, improve pre- and post-field trip activities, instruct students in field trip safety and etiquette, and much more.
 

Why do we have to learn this?

By Mary Bigelow

Posted on 2009-11-30

Whenever I start a new unit, some students consistently ask, “Why do we have to learn this?” How should I respond?
—Kevin, District of Columbia

“Why are we studying this?” “What good will this do me?” I know some teachers who enjoy the challenge of being asked questions like these and others who consider them to be disrespectful or stall tactics (and from some students they may be). But I must confess I was a questioner in school. If we were studying a new topic or starting an activity, I needed to find out (or figure out) what the point was, beyond getting a grade or learning something for a test. As a teacher, it was interesting to approach the question from another perspective.
It’s easy to answer “because”—“because it will be on the test,” “because it’s in the textbook,” or “because it’s in the standards”—and move on with the lesson. I’ve heard a teacher tell a class a topic was boring, but had to be covered for the test. I suspect those students had little interest in that unit. Answering with the cliché “you’ll need this later in life” is inadequate, given the fact information is readily available electronically and we can’t predict what careers and interests our students will have in their future.
Sometimes I would look at a topic and ask myself: What is the reason for spending time on this topic? How can I make it interesting? How does it connect with or build on what the students already know? Does it set the stage for future learning? How could the topic relate to real-life events or to other subject areas? How can I help students personalize this information?
Some students enjoy science, and their interest is independent of what the teacher does. A poor teacher would probably not discourage their interest in science. But a good teacher can make any topic interesting and relevant by using thought-provoking demonstrations or activities, multimedia, a variety of instructional strategies, cooperative learning, and opportunities for students to express their creativity.
As part of a project, I once conducted some focus group interviews with high school students. One of the questions was “Did you ever think that a topic in class was going to be boring, but it turned out to be really interesting?” The students responded positively and we followed up with the question “What made the topic interesting to you?” All of the students said that it was something the teacher did that changed their minds—the teacher’s enthusiasm for the topic, the teacher sharing a personal interest or experience with the topic, the teacher assigning interesting and challenging projects, or the teacher helping them make connections between the topic and their own experiences and interests.
One thing that may “hook” students is to introduce the unit with essential questions focused on a big idea or a theme as the purpose. During each lesson, revisit the questions, connecting any new content or experiences. For example, an earth science unit could focus on “How does the surface of the earth change over time?” As processes such as plate tectonics, erosion, deposition, or asteroid impact are studied, the teacher guides the students to connect the new learning with the questions. If the questions are posted in the classroom or in the students’ science notebooks, they have a constant reminder of the unit’s focus. Eventually, as they understand the unit’s purpose, students may come up with their own questions and learning goals.

Whenever I start a new unit, some students consistently ask, “Why do we have to learn this?” How should I respond?
—Kevin, District of Columbia

 

Online video resources

By Mary Bigelow

Posted on 2009-11-27

Have you seen NASA eClips? This is a collection of video clips on a variety of topics (such as the earth, sun, universe, STEM, aeronautics, and living in space), organized by grade level (K-5, 6-8, 9-12). Some of the notes for the clips include links to other NASA resources on the topic. There is a discussion of how the clips fit into the 5E teaching model, and they can be viewed online or downloaded. They are about 5 minutes long, so you could also use these as discussion starters or warm-up activities. The “Teacher Toolbox” section has a glossary, data sets (as part of the Technology Tools section), and an index to find a particular segment quickly.
I was blown away by the WatchKnow collection of “videos for kids to learn from.” I know some teachers are reluctant to have students search through YouTube for videos, because many have irrelevant, trivial, or inappropriate content. But these appear to be gleaned from YouTube and other external video collections, and they are organized by subject area (such as science) and sub categories (such as life science, chemistry, etc.). The collection can also be filtered by age (from 3-18). Since today is the day after Thanksgiving, I really enjoyed Thanksgiving Dinner and Chemistry, a video of a presentation from a college class, but understandable by younger students. Many of Bill Nye’s videos are accessible through WatchKnow also. Although it’s geared for students, teachers can find videos quickly here to supplement a wide variety of topics. I’m going to be spending way too much time here!
There are no fees attached to either of these sources. Enjoy!

Have you seen NASA eClips? This is a collection of video clips on a variety of topics (such as the earth, sun, universe, STEM, aeronautics, and living in space), organized by grade level (K-5, 6-8, 9-12). Some of the notes for the clips include links to other NASA resources on the topic. There is a discussion of how the clips fit into the 5E teaching model, and they can be viewed online or downloaded.

 

What's good for the girls in STEM?

By Debra Shapiro

Posted on 2009-11-24

http://www.flickr.com/photos/jimmiehomeschoolmom/ / CC BY 2.0


“When we long for life without difficulties, remind us that oaks grow strong in contrary winds, and diamonds are made under pressure.” While these words widely attributed to the late Senate chaplain Peter Marshall hold true in many circumstances, girls and women experiencing the “contrary winds and pressure” of gender inequity may need additional support to succeed in science, technology, engineering, and mathematics (STEM) fields. Several sessions at the NSTA conference in Phoenix can help you help them.
On Thursday, Suman Patil of the Society of Women Engineers will tell you about SWE’s scientific support resources for classrooms and labs during her presentation, Building Productive Relationships with the Society of Women Engineers.
Does using handheld data loggers in physics classes boost high school girls’ confidence in their abilities? Find out at Friday’s National Association for Research in Science Teaching session, Data Logging in Senior High Science: Are We Disadvantaging Girls?
Learning methods and tools that help girls succeed can also benefit other disadvantaged students. Check out the Phoenix session browser, and search using the terms “diversity” and “equity” to see how you can make science for all a reality in your classroom.

http://www.flickr.com/photos/jimmiehomeschoolmom/ / CC BY 2.0

 

ESP symposium: superpowers not required

By Lynn Petrinjak

Posted on 2009-11-23

Divining the keys to better science education doesn’t require extrasensory perception—just check out the ESP Symposium at the Phoenix Area Conference. Coordinated by Robert Yager, 1982-1983 NSTA president, NSTA’s Exemplary Science Program (ESP) sessions will examine outstanding science education programs and share insight into successful science learning.
“The National Science Education Standards provide the reforms of science teaching advocated after four years of debate,” says Yager. “More than a dozen NSTA leaders (officers and committee members) evaluate nominations…A panel of experts in the focus for a given search evaluates and works with the persons judged to have the most exciting programs for each monograph.”
Six monographs have been released; a seventh, on science dealing with personal and societal issues, is expected to be available in 2010. Three symposia offered in Phoenix will focus on informal education, science education in grades 5-8, and inquiry.
“The ESP sessions are designed to discuss the nature of teacher successes with meeting the specific reforms that are central to the recommendations central to the National Science Education Standards that are often not approached in State Standards which focus primarily on traditional science concepts,” says Yager. He explains the session will share information “concerning how real changes were accomplished and how they can be duplicated in other classrooms.” He hopes the session will get more educators involved by giving them an opportunity to try the practices themselves and “act as research teams similar to those of scientists and technologists. The sessions are meant to be as interactive as time permits.”
And if you use the online session browser, you won’t need that other ESP to find the sessions!

Divining the keys to better science education doesn’t require extrasensory perception—just check out the ESP Symposium at the Phoenix Area Conference. Coordinated by Robert Yager, 1982-1983 NSTA president, NSTA’s Exemplary Science Program (ESP) sessions will examine outstanding science education programs and share insight into successful science learning.

 

Interpreting evidence

By Mary Bigelow

Posted on 2009-11-22

Our students may be used to using evidence to answer questions, but in Elk Habitat: A Case Study of Scientific Inquiry, the authors describe an activity in which students ask questions, examine evidence, ask new questions, and design potential research studies. If elk studies are not relevant for your students, look at the resources of the National Center for Case Study Teaching in Science for more examples and resources. Wouldn’t it be interesting for older students to design case studies for younger grades?
The articles Argument-Driven Inquiry and A New Twist on Mystery Boxes both describe the value of argumentation in science. If argumentation is a new concept for your students, look at this month’s issue of Science and Children for ideas on how to introduce this type of discussion. Although “Mystery Boxes” have been used by many teachers, this could be a good activity for the beginning of the year, helping students to differentiate between evidence and inferences (and opinions). There is also a rubric for assessment.
Although there are many ways to measure temperature (use the code TST110901 in SciLinks,) The Sound of Crickets looks at whether the temperature can be estimated by counting cricket chirps. The process that the author used to figure out how to collect the evidence would be interesting for students to read about.
Students aren’t the only ones to engage in inquiry. Examining Student Work describes a process in which groups of teachers meet to examine student work in detail to examine student thinking and learning. Rather than looking only at the summative data from standardized tests, these teachers followed a systematic inquiry process to examine evidence of student learning throughout the school year. The authors provide many of the resources in the NSTA Connections, including an outline of a 55-minute study session. This month’s issue of Educational Leadership is devoted to the theme “Multiple Measures.” Many of the articles look at various types of assessments as examples of student work. Although most articles can be read online by nonmembers, unfortunately Looking at Student Work does require a fee for nonmembers. Perhaps a colleague who is a member of ASCD can get a copy for you.
Give a copy of Data, Data Everywhere to anyone in your school who analyzes data or transforms data into graphical representations. The author differentiates between types of data and describes the kinds of graphs that are appropriate for each, including how to graph the relationships between independent and dependent variables. To help students (or other teachers) communicate evidence graphically, check out the Create a Graph website from the National Center for Education Statistics. The Tutorial (which can be downloaded as a pdf file) also has an explanation of when to use various types of graphs and a discussion of independent and dependent variables. The tool itself can be used to make, save, and print graphs.

Our students may be used to using evidence to answer questions, but in Elk Habitat: A Case Study of Scientific Inquiry, the authors describe an activity in which students ask questions, examine evidence, ask new questions, and design potential research studies.

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